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Co-authored-by: vegorov-rbx <75688451+vegorov-rbx@users.noreply.github.com>

docs/user-defined-type-functions.md

@@ -185,11 +185,11 @@ All attributes of newly created typelib are initialized with empty tables / arra
 
 </details>
 
-The reason for going with userdata instead using another representation or adding a new compile-time interpreter like many other language is that userdata provides a clean abstraction from the runtime representation and restricts developers to using a set of libraries controlled by the Luau team where we can easily manage changes and listen to feedbacks. Moreover, because Lua was designed to be easily embeddable with C++, we wanted to use this as an advantage for type functions since they only require using a small runtime variant of the VM, making the implementation be simpler than having to implement a new interpreter.
+The reason for going with userdata instead using another representation or adding a new compile-time interpreter like many other languages is that userdata provides a clean abstraction from the runtime representation and restricts developers to using a set of libraries controlled by the Luau team where we can easily manage changes and listen to feedback. Moreover, because Luau is designed to be easily embeddable, we wanted to use this as an advantage for type functions since they only require using a small runtime variant of the VM, making the implementation be simpler than having to implement a new interpreter.
 
 ### Implementation
 
-A `typelib` library will be implemented using the Lua API to interface between C++ and Luau and support the library methods, including type serialization for arguments and deserialization for return values. To implement type functions, a new AST node called `AstStatTypeFunction` will be introduced and created when parsing a type alias followed by the keyword "function." In the constraint generator, visiting this new AST node will generate a `TypeAliasExpansionConstraint` and in the constraint solver, reducing `TypeAliasExpansionConstraint` will generate a `ReduceConstraint`. To reduce `ReduceConstraints`, user-defined type functions will be integrated as built-in type functions in Luau where when being invoked, their arguments will be serialized into an instance of `typelib`. These functions will interact with the Luau VM to execute the function body in an established environment with only the specified libraries and constructs available. The return value of the type function will be deserialized and be the value that the `ReduceConstraint` reduces to.
+A `typelib` library will be implemented using the Luau API to interface between C++ and Luau and support the library methods, including type serialization for arguments and deserialization for return values. To implement type functions, a new AST node called `AstStatTypeFunction` will be introduced and created when parsing a type alias followed by the keyword "function." In the constraint generator, visiting this new AST node will generate a `TypeAliasExpansionConstraint` and in the constraint solver, reducing `TypeAliasExpansionConstraint` will generate a `ReduceConstraint`. To reduce `ReduceConstraints`, user-defined type functions will be integrated as built-in type functions in Luau where when being invoked, their arguments will be serialized into an instance of `typelib`. These functions will interact with the Luau VM to execute the function body in an established environment with only the specified libraries and constructs available. The return value of the type function will be deserialized and be the value that the `ReduceConstraint` reduces to.
 
 ## Drawback